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Marine Organisms as Model Systems in Biology and Medicine

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Cover of 'Marine Organisms as Model Systems in Biology and Medicine'

Table of Contents

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    Book Overview
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    Chapter 1 Marine Nemertean Worms for Studies of Oocyte Maturation and Aging
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    Chapter 2 Sperm Nuclear Basic Proteins of Marine Invertebrates
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    Chapter 3 Fertilization in Starfish and Sea Urchin: Roles of Actin
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    Chapter 4 Starfish as a Model System for Analyzing Signal Transduction During Fertilization
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    Chapter 5 Toward Multiscale Modeling of Molecular and Biochemical Events Occurring at Fertilization Time in Sea Urchins
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    Chapter 6 Monosex in Aquaculture
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    Chapter 7 Medusa: A Review of an Ancient Cnidarian Body Form
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    Chapter 8 Sea Urchin Larvae as a Model for Postembryonic Development
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    Chapter 9 The Ciona Notochord Gene Regulatory Network
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    Chapter 10 Model Systems for Exploring the Evolutionary Origins of the Nervous System
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    Chapter 11 Nonprotein-Coding RNAs as Regulators of Development in Tunicates
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    Chapter 12 Differentiation and Transdifferentiation of Sponge Cells
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    Chapter 13 Holothurians as a Model System to Study Regeneration
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    Chapter 14 Regeneration in Stellate Echinoderms: Crinoidea, Asteroidea and Ophiuroidea
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    Chapter 15 Solitary Ascidians as Model Organisms in Regenerative Biology Studies
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    Chapter 16 Whole-Body Regeneration in the Colonial Tunicate Botrylloides leachii
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    Chapter 17 Beach to Bench to Bedside: Marine Invertebrate Biochemical Adaptations and Their Applications in Biotechnology and Biomedicine
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    Chapter 18 Coral Food, Feeding, Nutrition, and Secretion: A Review
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    Chapter 19 The Suitability of Fishes as Models for Studying Appetitive Behavior in Vertebrates
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    Chapter 20 Glycans with Antiviral Activity from Marine Organisms
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    Chapter 21 Cnidarian Jellyfish: Ecological Aspects, Nematocyst Isolation, and Treatment Methods of Sting
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    Chapter 22 These Colors Don’t Run: Regulation of Pigment—Biosynthesis in Echinoderms
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    Chapter 23 Reef-Building Corals as a Tool for Climate Change Research in the Genomics Era
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    Chapter 24 The Crown-of-Thorns Starfish: From Coral Reef Plague to Model System
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    Chapter 25 Structures and Composition of the Crab Carapace: An Archetypal Material in Biomimetic Mechanical Design
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    Chapter 26 Octopus vulgaris: An Alternative in Evolution
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    Chapter 27 Vision Made Easy: Cubozoans Can Advance Our Understanding of Systems-Level Visual Information Processing
Attention for Chapter 18: Coral Food, Feeding, Nutrition, and Secretion: A Review
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Chapter title
Coral Food, Feeding, Nutrition, and Secretion: A Review
Chapter number 18
Book title
Marine Organisms as Model Systems in Biology and Medicine
Published in
Results and problems in cell differentiation, August 2018
DOI 10.1007/978-3-319-92486-1_18
Pubmed ID
Book ISBNs
978-3-31-992485-4, 978-3-31-992486-1
Authors

Walter M. Goldberg

Abstract

Tropical scleractinian corals are dependent to varying degrees on their photosymbiotic partners. Under normal levels of temperature and irradiance, they can provide most, but not all, of the host's nutritional requirements. Heterotrophy is required to adequately supply critical nutrients, especially nitrogen and phosphorus. Scleractinian corals are known as mesozooplankton predators, and most employ tentacle capture. The ability to trap nano- and picoplankton has been demonstrated by several coral species and appears to fulfill a substantial proportion of their daily metabolic requirements. The mechanism of capture likely involves mucociliary activity or extracoelenteric digestion, but the relative contribution of these avenues have not been evaluated. Many corals employ mesenterial filaments to procure food in various forms, but the functional morphology and chemical activities of these structures have been poorly documented. Corals are capable of acquiring nutrition from particulate and dissolved organic matter, although the degree of reliance on these sources generally has not been established. Corals, including tropical, deep- and cold-water species, are known as a major source of carbon and other nutrients for benthic communities through the secretion of mucus, despite wide variation in chemical composition. Mucus is cycled through the planktonic microbial loop, the benthos, and the microbial community within the sediments. The consensus indicates that the dissolved organic fraction of mucus usually exceeds the insoluble portion, and both serve as sources for the growth of nano- and picoplankton. As many corals employ mucus to trap food, a portion is taken back during feeding. The net gain or loss has not been evaluated, although production is generally thought to exceed consumption. The same is true for the net uptake and loss of dissolved organic matter by mucus secretion. Octocorals are thought not to employ mucus capture or mesenterial filaments during feeding and generally rely on tentacular filtration of weakly swimming mesozooplankton, particulates, dissolved organic matter, and picoplankton. Nonsymbiotic species in the tropics favor phytoplankton and weakly swimming zooplankton. Azooxanthellate soft corals are opportunistic feeders and shift their diet according to the season from phyto- and nanoplankton in summer to primarily particulate organic matter (POM) in winter. Cold-water species favor POM, phytodetritus, microplankton, and larger zooplankton when available. Antipatharians apparently feed on mesozooplankton but also use mucus nets, possibly for capture of POM. Feeding modes in this group are poorly known.

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Mendeley readers

Mendeley readers

The data shown below were compiled from readership statistics for 122 Mendeley readers of this research output. Click here to see the associated Mendeley record.

Geographical breakdown

Country Count As %
Unknown 122 100%

Demographic breakdown

Readers by professional status Count As %
Student > Ph. D. Student 22 18%
Student > Master 21 17%
Student > Bachelor 16 13%
Researcher 9 7%
Professor 3 2%
Other 9 7%
Unknown 42 34%
Readers by discipline Count As %
Agricultural and Biological Sciences 31 25%
Environmental Science 22 18%
Biochemistry, Genetics and Molecular Biology 9 7%
Earth and Planetary Sciences 4 3%
Mathematics 2 2%
Other 9 7%
Unknown 45 37%
Attention Score in Context

Attention Score in Context

This research output has an Altmetric Attention Score of 1. This is our high-level measure of the quality and quantity of online attention that it has received. This Attention Score, as well as the ranking and number of research outputs shown below, was calculated when the research output was last mentioned on 08 August 2018.
All research outputs
#18,646,262
of 23,099,576 outputs
Outputs from Results and problems in cell differentiation
#134
of 217 outputs
Outputs of similar age
#254,363
of 330,798 outputs
Outputs of similar age from Results and problems in cell differentiation
#11
of 15 outputs
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So far Altmetric has tracked 217 research outputs from this source. They receive a mean Attention Score of 2.2. This one is in the 25th percentile – i.e., 25% of its peers scored the same or lower than it.
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